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Foreword by Frank
Vinicor, M.D., M.P.H.
- My
First 50 Years As a Diabetic
- In this chapter, Dr. Bernstein tells the
remarkable story of his life, including his
self-discovered technique for controlling
his blood sugars, recovery from over a half-dozen
common diabetes-related conditions, and the
conflict he encountered with the medical community
which still doesn't believe it's possible.
- Before
& After: 14 Patients Share Their Experiences
- Much of it in their own words, 14 of Dr.
Bernstein's patients tell the stories of their
lives before trying his solution and the life-changing
results they experienced as a result.
- Chap. 1: Diabetes:
The Basics
- Diabetes 101, including the difference between
Type I and Type II diabetes. As a Type I diabetic
himself, Dr. Bernstein offers personal insight.
Chap. 2: Tests:
A Baseline Measure of Your Disease and Risk
Profile
Chap. 3: Your Diabetic Tool Kit: Supplies You
Will Need and Where to Get Them
Chap. 4: How and When to Measure Blood Sugar
Chap. 5: Recording Blood Sugar Data: Using the
GLUCOGRAF II Data Sheet
Chap. 6: Strange Biology: Phenomena Peculiar
to Diabetes That Can Affect Blood Sugar
-
Chap. 7: The Laws of Small Numbers
- How exactly can you learn to predict your
blood sugars? Dr. Bernstein answers the question
in this chapter.
Chap. 8: Establishing
a Treatement Plan: The Basic Treatment Plans
and How We Structure Them
- Chap. 9: The
Basic Food Groups, or Much of What You've
Been Taught About Diet is Probably Wrong
- Dr. Bernstein's reduces the complex "food
pyramid" to three food groups, and warns
how damaging the typical American diet can
be to diabetics and nondiabetics alike.
- Chap. 10: Diet
Guidelines: Basic Treatment for All Diabetics
- Prepare for some big surprises about the
foods we've come to believe were really "sugar-free"
and learn which types of foods Dr. Bernstein
advocates in his diet plan for diabetics.
Chap. 11: Creating
a Customized Meal Plan
- Chap. 12:
Weight Loss--If You're Overweight
- Scientific insight about why people become
overweight, plus methods for you to lose weight
the right way.
Chap. 13: Using
Exercise to Enhance Insulin Sensitivity
- Chap. 14:
Oral Hypoglycemic Agents
- Valuable knowledge about the various OHA's,
including Dr. Bernstein's dosage regimens,
benefits and some possible side effects.
Chap. 15: Insulin:
The Basics of Self-Injection
Chap. 16: Important
Information About Various Insulins
Chap. 17: Simple Insulin Regimens
Chap. 18: Intensive Insulin Regimens
Chap. 19: How to Prevent and Correct Low Blood
Sugars
Chap. 20: How to Cope with Dehydrating Illness
Chap. 21: Delayed Stomach-Emptying: Gastroparesis
Chap. 22: Routine Follow-up Visits to Your Physician
- Chap. 23:
What You Can Expect from Virtually Normal
Blood Sugars
- Coming out of the dark...Dr. Bernstein offers
hope for what physical and mental changes
normalized blood sugars can do for you.
- Appendix
A: What About the Widely Advocated Dietary
Restrictions on Fat, Protein, and Salt, and
the Current High-Fiber Fad?
- Dr. Bernstein answers with real-world, common-sense
scientific analysis of why certain foods have
been stressed as "good" and others
as "bad" by the medical establishment.
Appendix B: Don't
Permit Hospitalization to Impair Your Blood
Sugar Control
Appendix C: Drugs That May Affect Blood Glucose
Levels
Appendix D: Recipes for Low-Carbohydrate Meals
- Appendix
E: Foot Care for Diabetics
- Foot-saving advice for diabetics, including
a list of do's and don'ts to help keep you
on your feet for years to come.
Glossary &
Index
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Chapter
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Weight loss can
significantly reduce your insulin resistance. You
may recall from Chapter 1 that obesity, specifically
abdominal (truncal, or visceral) obesity, causes insulin
resistance and thereby can play a major role in the
development of both impaired glucose tolerance and
Type II diabetes. If you have this kind of obesity,
it is important that weight loss become a goal of
your treatment plan. Weight reduction can also slow
down the process of beta-cell burnout by making your
tissues more sensitive to the insulin you still produce,
allowing you to require (and therefore produce or
inject) less insulin.
It may even be possible, under certain circumstances,
to completely reverse your glucose intolerance. Long
before I studied medicine, I had a friend, Howie,
who gained about 100 pounds over the course of a few
years. He developed Type II diabetes and had to take
a large amount of insulin (100 units daily) to keep
it under control. His physician pointed out to him
the likely connection between his diabetes and his
obesity. To my amazement, during the following
year, he was able to lose 100 pounds. At the end of
the year, he had normal glucose tolerance, no need
for insulin, and a new wardrobe. This kind of success
may only be possible if the diabetes is of short duration,
but it is certainly worth keeping in mind—weight loss
can sometimes work miracles.
Before we talk about weight loss, it makes sense to
talk about obesity.
The Thrifty Genotype
When I see a very
overweight person, I don't think, "He ought to
control his eating." I think, "He has the
thrifty genotype."
What is the thrifty genotype?
The hypothesis for the thrifty genotype was first
proposed by James V. Neel in 1962 to explain the high
incidence of obesity and Type II diabetes among the
Pima Indians of the southwestern United States. Evidence
for a genetic determinant of obesity has increased
over the years. Photographs of the Pimas from a century
ago show a lean and wiry people. They did not know
what obesity was and in fact had no word in their
vocabulary to identify it.
Their food supply diminished in the early part of
this century, something that had occurred repeatedly
throughout their history. Now, however, they weren't
faced with famine. The Bureau of Indian Affairs took
over feeding them, and an astonishing thing happened.
These lean and wiry people developed an astronomical
incidence of obesity—100% of adult Pima Indians today
are grossly obese, with a staggering rate of diabetes.
Fully 60 percent of adults are Type II diabetics.
What happened to the Pimas? How did such apparently
hardy and fit people become so grossly obese? Though
their society was at least in part agrarian, they
lived in the desert, where drought was frequent and
harvests could easily fail. During periods of famine,
those of their forebears whose bodies were not thrifty
or capable of storing enough energy to survive without
food died out. Those who survived were those who somehow
could survive without food. How did they do it? Although
it may be simplifying somewhat, the mechanism essentially
works like this: Those who naturally craved carbohydrate
and consumed it whenever it was available, even if
they weren't hungry, would have made more insulin
and thereby stored more fat. Add to this the additional
mechanism of the high insulin levels caused by inherited
insulin resistance, and serum insulin levels would
have become great enough to induce fat storage sufficient
to enable them to live through famines. (See Figure
1-1.) Truly survival of the fittest—provided famines
would continue.
A strain of chronically obese mice created in the
early fifties demonstrates quite vividly how valuable
thrifty genes can be in famine. When these mice are
allowed an unlimited food supply, they balloon and
add as much as half again the body weight of normal
mice. Yet deprived of food, these mice can survive
a mind-boggling 40 days, versus 7–10 days for normal
mice.
Recent research on these chronically obese mice provides
some tantalizingly direct evidence of the effect a
thrifty genotype can have upon physiology. In ordinary
mice, a hormone called leptin is produced in the fat
cells (also a hormone the human body produces, with
apparently similar effect). The hormone tends to inhibit
overeating, speed metabolism, and act as a modulator
of level of body fat. A genetic "flaw" causes
the obese mice to make a less effective form of leptin.
In recent experiments, when injected with the real
thing they almost instantly slimmed down. Not only
did they eat less but they lost as much as 40 percent
of their body weight, their metabolism sped up, and
they became much more active. Many were diabetic,
but their loss of weight (and the change in the ratio
of fat to lean body mass) reversed or even "cured"
their diabetes. Ordinary mice injected with leptin
also ate less, became more active, and lost weight,
though not as high a percentage. Research on humans
has not advanced sufficiently to provide conclusive
evidence that the mechanism is the same in obese humans,
but researchers believe it is at least equivalent
and probably related to more than one gene, and to
different gene clusters in different populations.
In a full-blown famine, the Pima Indian's ability
to survive long enough to find food is nothing short
of a blessing. But when satisfying carbohydrate craving
is suddenly just a matter of going to the grocery,
what was once an asset becomes a very serious liability.
Although about 30 percent of the overall population
of the United States is chronically obese, there is
considerable reason to be concerned, because the number
has been increasing by 1 percent each year. Some researchers
attribute rising obesity in the United States at least
in part to increasing numbers of former smokers. Others
attribute it to the recent increase in carbohydrate
consumption by those trying to avoid dietary fat.
Whatever the reasons, obesity can lead to diabetes.
The thrifty genotype has its most dramatic appearance
in isolated populations like the Pimas, which have
recently been exposed to an unlimited food supply
after millennia of intermittent famine. The Fiji Islanders,
for example, were another lean, wiry people, accustomed
to the rigors of paddling out against the Pacific
to fish. Their diet, high in protein and low in carbohydrate,
suited them perfectly. After the onset of the tourist
economy that followed World War II, their diet changed
to our high-carbohydrate western diet, and they too
began (and continue) to suffer from a high incidence
of obesity and Type II diabetes. The same is true
of the Australian Aborigines after the Aboriginal
Service began to provide them with grain. Ditto for
South African blacks who migrated from the bush into
the big cities. Interestingly, a study that paid obese,
diabetic South African blacks to go back to the countryside
and return to their traditional high-protein, low-carbohydrate
diet found that they experienced dramatic weight loss
and regression of their diabetes.
It's clear that thrifty genotypes work in isolated
populations to make metabolism supremely energy-efficient,
but what happens when the populations have unrestricted
access to high-carbohydrate foods?
It would appear that the mechanism of the thrifty
genotype works something like this: Certain areas
of the brain associated with satiety—that sensation
of being physically and emotionally satisfied—have
lower levels of certain chemicals known as neurotransmitters.
A number of years ago, Drs. Richard and Judith Wurtman
at the Massachusetts Institute of Technology (MIT)
discovered that the level of the neurotransmitter
serotonin is raised in certain parts of the hypothalamus
of the animal brain when the animal eats carbohydrate,
especially fast-acting concentrated carbohydrate like
bread. Serotonin is a neurotransmitter that seems
to reduce anxiety as it produces satiety. Other neurotransmitters
such as dopamine and norepinephrine can also affect
our senses of satiety and anxiety, euphoria and dysphoria.
There are now seventy-five known neurotransmitters,
and many more of them may affect mood and food in
ways that are just beginning to be researched and
understood.
In persons with the thrifty genotype, deficiencies
of these neurotransmitters (or diminished sensitivity
to them in the brain) causes both a feeling of hunger
and a mild dysphoria—often a sensation of anxiety,
and the opposite of euphoria. Eating carbohydrates
temporarily causes the individual to feel not only
less hungry but also more at ease.
A frequent television sitcom scenario is the woman
just dumped by her boyfriend who plops down on the
couch with a pie or half a gallon of ice cream, a
spoon, and the intention of eating the whole thing.
She's not really hungry. She's depressed and trying
to make herself feel better. She's indulging herself,
we think, rewarding herself in a way for enduring
one of life's traumas, and we laugh because we understand
the feeling. But there is a very real biochemical
mechanism at work here. She craves the sugar in the
pie or the ice cream not because she's hungry but
because she knows, consciously or not, that it really
will make her feel better. Contrary to popular belief,
the fat in the ice cream or in the crust of the pie
doesn't make much of a difference. It's the carbohydrate
that will increase the level of certain neurotransmitters
in her brain and make her feel better temporarily.
The side effect of the carbohydrate is that it also
causes her blood sugar to rise and her body to make
more insulin; and, as she sits on the couch, the elevation
in her insulin will turn the sugar she eats into fat.
On television the actress never gets fat. But for
the real-life woman, high serum insulin levels from
eating high-carbohydrate foods will cause her to crave
carbohydrate again. If she is a Type I diabetic making
no insulin, she'll have to inject a lot of insulin
to get her blood sugar down, with the same effect—more
carbohydrate craving and building up of fat reserves.
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